logomark
Research

Research

BDR researchers coming from diverse research fields are working together to achieve higher goals.

Seminars & Symposia

Seminars & Symposia

BDR hosts annual symposium and regular seminars inviting international scientists in life science.

Careers & Study

Careers & Study

BDR embraces people from diverse backgrounds, and strives to create an open and supportive setting for research.

Outreach

Outreach

BDR communicates the appeal and significance of our research to society through the use of various media and activities.

News

News

From research, events, people and everything in between, find out what’s going on at RIKEN BDR.

About Us

About Us

Exploring the scientific foundations of life through interdisciplinary approaches to address society’s problems.

Probing Nanoscale Architecture of Cell Adhesion Complexes by Superresolution Microscopy
Jun. 11, 2018 16:00 - 17:00

Category

Seminar

Place

Kobe

Venue

DB Bldg. SeminarRoom A7F

Speaker

Pakorn Kanchanawong

Affiliation

Department of Biomedical Engineering and Mechanobiology Institute, National University of Singapore

Summary

Many complex biological functions are performed by supramolecular assemblies self-organized from a diverse ensemble of proteins. Cell adhesion structures such as the integrin-based focal adhesions and cadherin-based cell-cell junctions are multi-protein complexes known to transmit, sustain, sense, and respond to mechanical force. The knowledge of their physical organization is therefore essential for molecular mechanistic insights into their mechanobiological functions. Due to the nanometer size scale of the adhesion protein building blocks, the nanoscale is the functionally salient length scale for the spatial organization of these molecular complexes. Here, interference-based techniques in superresolution microscopy have been particularly useful for achieving sub 20-nm resolution amenable for deciphering protein organization. I will discuss our recent studies whereby such superresolution strategies have been employed to elucidate the nanoscale architecture of cell adhesion complexes and to probe molecular orientation and conformational transitions of key mechanotransducer proteins, providing structural frameworks for understanding how mechanical forces and biochemical signals may be integrated at cell adhesion sites.

Host

Masatoshi Takeichi

PAGE
TOP